This blog is a state of the use of methanol as marine fuel as “quick” reference for shipowners. Key points include costs for retrofitting the ship and engine, range between € 250-€650 per kW, elaboration on IGF code for low flashpoint fuels and technical considerations for conversion and working with methanol. Availability for methanol is good, but bunkering for large vessels mostly non-existent. Methanol price per kilogram is historically lower than regular MGO.

Marine exhaust gas heat recovery systems can be a useful measure to reduce fuel consumption by 5% for typical cases, with up to 15% for favourable engine and ship characteristics. As a rule of thumb, heat exchangers become more efficient and cost-effective the larger your engine becomes. Conversion of heat to electricity is recommended for diesel-electric vessels, as well as the use of engine cooling water instead of exhaust gas heat.

Most ports have the ambition to become carbon neutral by 2050. This typically excludes vessel emissions and focusses on Scope 1/2 port operations only. A significant portion of ports around the world have signed shore power declarations to ‘deploy shore-side electricity by 2028 where possible’, including all large North Sea ports, Los Angeles, Montreal and all large Japanese ports. Cruise and container vessels are the primary target for most ports’ regulations and EU will start taxing vessels via EU ETS from next year onwards.

Four out of the five largest shipping companies have the ambition to be carbon neutral by 2050. Most shipping companies focus on alternative fuels for combustion. Preferred fuels that are currently considered are (bio)LNG and methanol.

Virtually all energy majors have 2050 as target date for carbon neutrality. Most focus solely on Scope I and II emissions. Ørsted and Equinor have the highest ambitions and most stringent targets. Repsol, Eni, Shell, TotalEnergies and BP are following suit.

In the next four years, you will be faced with a carbon tax of €200 - €300 carbon tax per mT fuel, mandatory use of shore power and low carbon fuels due to a these five regulations: FuelEU Maritime, EU ETS, AFID, RED, ETD.

Ports are the start and end of every vessel’s journey. Because of this, onshore power supply undeniably plays a big part of the decarbonization of the maritime industry. Creating a network of onshore power supply in ports around the world is a tremendous but necessary task. One of the companies providing the technology for this transition is ShoreLink. Watch this lunch and learn by Shorelink, presented by Levan Chikviladze, to learn more.

Join Frank Nieuwenhuis, CEO of Econowind, as we discuss the VentiFoil®, sails of the 21st century. These devices can be installed on board existing vessels or newbuilds to reduce fuel consumption (or make you sail faster!)

Watch this lunch and learn with EOPSA Founding President Roland Teixeira de Mattos, who will tell all about EOPSA, its growth, its advocacy, its outlook and the broader topic of Port Energy.

This blog provides an overview of (European/Dutch) shore power sockets and plugs. They are categorized into three groups, depending on a ship’s installed power: below 100 kW, below 2.000 kW and above 2.000 kW. Especially below 100 kW, there is great diversification of plugs which would merit the creation of a ‘universal adapter’ for ships. Share your experience to help other shipowners.

Join Thomas Therkild Petersen as he presents the FCWave, a modular 200 kW hydrogen fuel cell for marine purposes made by Ballard. It is the only DNV type approved hydrogen fuel cell on the market. At the size of a large cabinet, it can be directly integrated into most engine rooms without a hitch. Watch this video to gain insights on one of the best hydrogen fuel cell systems available for the maritime industry.

As the world’s first type approved module for marine applications, FCwaveTM uses proven technology from Ballard's heavy duty module platform to deliver reliable performance, high power density and favorable economics.

Join Bram van den Boom as we learn the benefits of using Smart Vessel Optimizer, an analytics tool that offers performance dashboards to increase operational efficiency. No need to change your systems; it makes use of already existing but many times unused signals installed on board. The more vessels that you have connected, the better your insights.

This tutorial will show you how to use the Decarbonizer in order to get a personalized roadmap to decarbonize your vessel. In just a few clicks, you receive freely available insights into which carbon reduction measures are best suited for your vessel.

ISO 8178 is an international standard for exhaust emission measurement, including marine engine applications. It is used for emission certification and/or type approval testing. Test cycles for marine (main) engines are E1-E5.

Join Bruno Bouckaert as we discuss 'Hull Vane', an energy saving device for medium-speed and fast displacement vessels. These include superyachts, naval ships, patrol vessels, offshore vessels, ferries, roro vessels and expedition cruise vessels. Full scale trials show confirmed savings of 5-25% on suitable ships.

Learn about methanol, the simplest alcohol in the universe which has the highest hydrogen to carbon ratio of any liquid fuel under ambient atmospheric conditions. It can reduce SOx emission by 99%, NOx by 60% and PM by 95%.

The patented Hull Vane® is a proven energy-saving and seakeeping device to achieve the highest level of performance on intermediate-speed vessels. The Hull Vane® consists of a transom-mounted submerged wing - or hydrofoil -, which converts energy of the stern wave into forward thrust. It reduces fuel consumption between 5-25%, emissions, powering requirements, noise and motions in waves.

Join Martijn van Ruiten as we discuss Ecospeed, a proven, non-toxic, cost-effective alternative technology for underwater ship hull protection and biofouling control. It can save up to 10-25% of fuel consumption and emissions, some specific cases even claim a reduction as high as 40% or more.

Specific Fuel Consumption (SFC) of marine engines ranges between 155 and 200 g/kWh on optimal load settings, mostly dependent on engine speed (low, medium, high). Specific fuel consumption increases dramatically for approach at low power (30% Pmax) and especially at idle (7% Pmax).